Use Of A Cable Guide

Abstract

The invention relates to a use of a line bushing (1) which has a bushing sleeve (2), through which a line can be guided along a center axis (9) of the bushing sleeve (2), and a flange part (3) for abutting against a side face (51.1) of the wall or floor element (51), wherein the bushing sleeve (2) is tiltably mounted on the flange part (3) for changing a tilt angle, and wherein the tiltable mounting is realized via an elastomeric deformation element (28) as a joint (39) for installation in a passage opening (50) in a wall or floor element (51) of a building, wherein the bushing sleeve (2) is inserted into the passage opening (50) in such a way that the flange part (3) abuts against the side face (51.1) of the wall or floor element (51).

1 . A line bushing, the line bushing comprising:
 bushing sleeve, through which a line can be guided along a center axis of the bushing sleeve; and   a flange part for abutting against a side face of the wall or floor element,   wherein the bushing sleeve is tiltably mounted on the flange part for changing a tilt angle,   and wherein the tiltable mounting is realized via an elastomeric deformation element as a joint,   
       the line bushing being configured for installation in a passage opening in a wall or floor element of a building, wherein the bushing sleeve is configured for being inserted into the passage opening in such a way that the flange part abuts against the side face of the wall or floor element. 
     
     
         2 . The line bushing according to  claim 1 , wherein the bushing sleeve defines a center axis that is configured in an unloaded state to be perpendicular to a plane defined by the flange part, and the bushing sleeve is configured in use with a passage opening that is tilted relative to a surface normal on a side face, and such that the bushing sleeve is tilted relative to the flange part in the passage opening. 
     
     
         3 . The line bushing according to  claim 1 , in which the joint realized as an elastomeric deformation element has a jacket wall which is formed with a circumferential projection and/or a circumferential indentation. 
     
     
         4 . The line bushing according to  claim 3 , in which the jacket wall of the elastomeric deformation element extends from an inner radial position on the bushing sleeve to an outer radial position on the flange part and is formed with a circumferential projection and a circumferential indentation which follow one another radially. 
     
     
         5 . The line bushing according to  claim 3 , in which at least one layer of the flange part is provided from an elastomer material, wherein the jacket wall of the elastomeric deformation element is formed monolithically with the at least one layer. 
     
     
         6 . The line bushing according to  claim 5 , in which the layer of the flange part provided from the elastomer material has a thickness of at most 10 mm. 
     
     
         7 . The line bushing according to  claim 6 , in which the flange part has a flat bitumen or butyl layer, the radial extent of which is thus greater than its axial extent when viewed in an axial section. 
     
     
         8 . The line bushing according to  claim 5 , in which the bushing sleeve is formed monolithically with the at least one layer of the flange part from the elastomer material. 
     
     
         9 . The line bushing according to  claim 1 , in which the bushing sleeve has at one end a sealing collar which extends radially inwards, and which abuts against an empty pipe guided through the bushing sleeve. 
     
     
         10 . The method according to claim  19 , in which, when an insertion portion of the bushing sleeve is inserted into the passage opening and the flange part abuts against the side face, an injection portion of the bushing sleeve, which lies on a side of the flange part axially opposite the insertion portion, projects out of the passage opening, wherein a filling opening is provided in the injection portion in a jacket wall of the bushing sleeve, via which a flowable filling substance, which then solidifies, is filled into an annular space defined by the bushing sleeve. 
     
     
         11 . The method according to  claim 10 , in which a connecting piece forming the filling opening is oriented obliquely with respect to the center axis of the bushing sleeve and/or is formed monolithically with at least one layer of the jacket wall of the bushing sleeve. 
     
     
         12 . The method according to claim  20 , in which the bushing sleeve is provided with an outlet opening which is in a first state, when the bushing sleeve is inserted into the passage opening, and is brought into a second state under the pressure of flowable filling substance, in which second state an opening cross section of the outlet opening is greater than in the first state. 
     
     
         13 . The method according to claim  20 , in which an insertion portion of the bushing sleeve inserted into the passage opening is divided into a first axial portion which adjoins the flange part, and a second axial portion which follows the first axial portion axially away from the flange part, wherein a jacket wall of the bushing sleeve
 is closed in the first axial portion, and   is provided with a plurality of outlet openings in the second axial portion.   
     
     
         14 . The method according to  claim 13 , in which a spacer is provided at least in the second axial portion on an inner wall surface of the jacket wall of the bushing sleeve in order to keep the jacket wall of the bushing sleeve spaced apart from an outer wall surface of an empty pipe guided through. 
     
     
         15 . The method according to  claim 13 , in which the bushing sleeve is formed elastically deformable at least in the second axial portion such that the jacket wall of the bushing sleeve is formed from an elastomer material. 
     
     
         16 . The method according to  claim 14 , in which the bushing sleeve is formed rigidly at least in the second axial portion such that the jacket wall of the bushing sleeve is formed from a rigid material. 
     
     
         17 . The method according to  claim 13 , in which the jacket wall of the bushing sleeve is constructed in several layers in the first axial portion, namely in a layer of an elastomer material, which is supported by a support sleeve has a further layer. 
     
     
         18 . The method according to  claim 15 , in which the jacket wall of the bushing sleeve is constructed in several layers in the first axial portion, namely in a layer of an elastomer material, which is supported by a support sleeve as a further layer, and in which the layer of the first axial portion formed from the elastomer material and the jacket wall of the bushing sleeve of the second axial portion are formed monolithically with one another. 
     
     
         19 . A method of using a line bushing, the method comprising the steps of:
 obtaining a line bushing, the line bushing having a bushing sleeve, through which a line can be guided along a center axis of the bushing sleeve, and having a flange part for abutting against a side face of the wall or floor element,
 wherein the bushing sleeve is tiltably mounted on the flange part for changing a tilt angle, 
 and wherein the tiltable mounting is realized via an elastomeric deformation element as a joint; and 
   inserting the bushing sleeve into a passage opening in a wall or floor element of a building, in such a way that the flange part abuts against a side face of the wall or floor element.   
     
     
         20 . The method according to  claim 19 , wherein, in the line bushing, the center axis of the bushing sleeve, in an unloaded state, is perpendicular to a plane defined by the abutment of the flange part, but, in use, the passage opening is tilted relative to a surface normal on the side face, and the bushing sleeve, with deformation of the elastomeric deformation element, is fastened tilted relative to the flange part in the passage opening.